Dartmouth University

What you'll study

The programme is organised around a strong foundation in mathematics and physical sciences, core engineering principles, and computer science. Early study typically covers calculus, linear algebra, differential equations, and introductory physics alongside programming fundamentals and discrete mathematics. Students then move into electrical and computer engineering-specific topics such as circuit analysis, electronics, digital logic and design, microprocessors and embedded systems, signals and systems, and computer architecture.

Lab and project work are central: courses include hands-on electronics and digital systems laboratories, embedded-systems projects, and a capstone team design project that integrates hardware and software. Advanced electives allow specialisation in areas such as VLSI/ASIC design, FPGA development, real-time and embedded operating systems, networks and communications, controls, signal processing, robotics, and hardware security. Students are encouraged to take complementary courses in software engineering, algorithms, and machine learning, and to participate in undergraduate research or industry internships.

Entry requirements

Admission is competitive and looks for strong achievement in mathematics and science at secondary school. Typical successful applicants will have substantial preparation in mathematics (including calculus where available), physics, and prior experience with programming or electronics. Admissions also consider the overall academic record, teacher recommendations, personal statements, and evidence of project or laboratory experience where available.

For applicants whose secondary education differs from the host country, appropriate equivalent qualifications are accepted. Mature applicants or those with vocational qualifications and relevant practical experience are also considered. Prospective students are advised to contact the admissions office or department for guidance on curriculum equivalencies and recommended preparation.

Career prospects

Graduates are prepared for roles that bridge hardware and software. Common career paths include embedded systems engineer, hardware design engineer, firmware developer, systems engineer, FPGA/ASIC engineer, prototyping and test engineer, robotics engineer, and roles in IoT and telecommunications. Many graduates also move into software engineering, data engineering or cybersecurity roles given the strong computing component.

Other options include postgraduate study in electrical engineering, computer engineering, computer science or related fields, and careers in research and development. The programme’s emphasis on team projects, lab skills and internships supports rapid transition into industry and entrepreneurship.

Why study at Dartmouth University

The engineering programme is delivered with close faculty-student interaction and an emphasis on hands-on, project-based learning. Students benefit from interdisciplinary collaboration across engineering and computer science, access to well-equipped teaching laboratories and maker spaces, and opportunities for supervised undergraduate research. The small cohort sizes foster mentorship and teamwork, and the institution’s connections with industry and alumni networks support internship and employment placements.

Students interested in combining technical study with a broader liberal-arts education will find flexibility to take courses across disciplines, enabling effective communication, leadership and problem-solving skills valued by employers. The programme’s practical orientation and strong support for experiential learning make it a solid choice for those aiming to work on the hardware–software boundary.